Three Dimensional Warriors: Second Edition

In the opening days of U.S. combat in World War II, courageous Navy and Marine pilots faced the Imperial Japanese Navy in inferior aircraft. For the U.S. Marines, the Brewster F2-A Buffalo was woefully inadequate. At the Battle of Midway, an entire Navy torpedo squadron — Torpedo-8 — except for one lone pilot, was killed in combat.

With the world in combat and individual nations fighting for their very existence, aircraft design teams pressed ahead with all of the resources and intellectual vision they could bring to the design table. The U.S. air forces introduced a steady stream of type, model and series (T/M/S) of continuously-improved airborne killing machines. From the Brewster F2-A Buffalo to the F-4F and F-4U to the F-6 and, by the end of the war, the F-8 Bearcat, the Navy had a series of prop-driven fighters that were a match for the Japanese Zero. The Army Air Corps went from the P-39 to the P-38 Lightning, and the P-47 Thunderbolt to the P-51 Mustang—with its wonderful bubble canopy—to carry the fight to the heart of Germany.

Along the way, emphasis was placed on pilot survivability as evidenced by placing armor plates in the cockpit and installing self-sealing fuel tanks. Since the entire objective was to get first tally and then out-maneuver and kill the enemy, the design focus was on an improved blend of speed, range and maneuverability—in essence, better engines and smarter airframe designs.

While the main effort was to produce enough motors and gun sights, industry and research labs were working on the technology of the air fight.

The P-61 Black Widow was an early attempt to add radar to a night fighter, and the Germans tried a rocket plane against B-17 formations. The Italians, Germans, Brits and, ultimately, Americans experimented with early jet engines. But it was the German ME-262 that changed the dynamics of combat, although the Germans employed it in an inefficient manner by following Hitler’s call for it to be committed to an air to ground role.

After WWII, the jet engines saw improved airframe system performance through enhanced speed, range and maneuverability. But two new dynamics — both related to payload – were added.

For a fighter in WWII, the payload was simple—what caliber and how many machine guns or cannons fit the design to give the pilot enough deadly bursts to kill several of his opponents?

In the jet age, the complexities of adding airborne systems and improving the weapons on board changed the technology vectors of design considerations and introduced two more synergistic, but relatively independent, research and development paths. Airborne radar and sensors were added to fighters. Those systems helped the payload—guns and early infrared (IR) fire and forget missiles became more efficient with the AIM 9 sidewinder series. But then, concurrently, independent performance was put into the payload by improving missiles and linking beyond visual range (BVR) missile shots to radar technology. At first, radar-guided missiles needed continuous guidance from the fighter, but eventually even radar-guided missiles became BVR self- contained fire and forget.

Unlike WWII research and development where research on airframes and engines was the mantra, the jet age involved two other major design factors. The first was a continuous quest for improved radar systems and, second, as technology allowed, improved weapons. Yet again, the art of aeronautical design had to work in partnership with the science of military R&D.

Along the way, survivability concerns shifted from armor, speed and a good canopy to electronic warfare and the incorporation of stealth characteristics through design, composite materials and paint chemistry. Stealth is a survivability factor and multiplies the effectiveness of the fighter. Stealth isn’t just added, it is incorporated into the fighter. Being a multiplying factor means it is sensitive and can drive the entire performance of the airframe and combat system. At the end of the 20th century, the complexities of fielding the best fighter were a much bigger challenge because of three synergistic but independent factors— basic airframe performance improvements, internal system R&D and continuously improved weapons.

However, with the computer revolution moving at light speed, a fourth design dynamic is now at work—the man-machine interface. With the capability of three-dimensional sensing and the ability to distribute information to other warfighters — airborne, on the ground or at sea — the relationship of the individual pilot to the entire air battle offers a truly revolutionary shift that will continue to evolve. For example, one of the most important capabilities of the F-35B, not yet exploited, is the distributed information capability. All pilots, regardless of experience, will fly into the air battle with the same knowledge and situational awareness. Consequently, if one pilot gets inside the opponent’s Observe Orient Decide Act (OODA) loop all are capable of having that same joint knowledge. The revolutionary aspect is that the enemy can splash an individual F-35B but they can’t kill the knowledge gained by all. This is a truly unique 21st century technology impacting the air battle.

Conversely, on the offensive, if one F-35B picks up an enemy’s airborne vulnerability, such as an aircraft system, weapon frequency emission or stealth breakdown, the information can be sent to all. Every Lightning II is a real-time intelligence collection system. The entire engagement is also captured electronically for immediate and direct refinements to tactics and analysis at the Marine Air Weapons Training Squadron during the air battle. Fleet-wide information sharing among services and allies will be a huge factor in winning an air campaign.

In WWII, the Buffalo was a grape and the design teams worked with wartime efficiency to follow a single path to improve airframe performance. After WWII, the technology vectors of improving internal systems and weapons carried were added to the mix.

In this new century, the concept of each pilot being a three-dimensional warrior with superior knowledge is being pioneered by the USMC aviation community.

The F-35 is not designed for the early century’s concept of the knife fight. It enables internal changes to its systems that can incorporate the best weapons while empowering combat pilots to have three-dimensional knowledge, thus elevating the fight to a new level. In other words, the F-35 may actually be its own follow-on. Instead of the old paradigm of needing to completely build another fighter to move from the F-2A Grape to F-4U Whistling Death, the Marines can just change and update the F-35B system, sensors and weapons. The Marines flying the F-35B with a pre-planned product improvement design philosophy to pull and replace or add system capabilities will have the flexibility to add new sensors and the improved anti-aircraft missiles currently being designed.

Exploiting man-machine, three-dimensional knowledge is truly a brave new world.

The F-35B is capable of constantly updating the next generation of U.S. fighters by staying inside the F-35B basic airframe and adding the next generation of systems and weapons. Thus, the American arsenal of democracy is shifting from an industrial production line to a clean room and a computer lab as the key shapers of our competitive advantage.

It is a bold concept and only history will tell us if this is indeed the best way ahead. In addition, the USMC combat flexibility of basing mode enabled by V/STOL adds a revolutionary capability for the integrated air-ground battle.

Note: This introduction is from the first edition of Three Dimensional Warriors.

OSPREY AT THE FIVE-YEAR MARK: LOOKING FORWARD TO THE FUTURE

by Robbin Laird

8/31/2012

In September 2007, the Osprey was deployed for the first time to Iraq. In February 2007, a CH-46 was shot down by Infra-Red MANPAD in Iraq. In May 2007, the Commandant and Lt. General Castellaw announced the decision to deploy the Osprey as soon as it was ready. In early July 2007, Lt. General Trautman replaced Castellaw as Deptuty Commandant of Aviation and the squadron subsequently deployed in late September 2007.

The plane has not only done well, but in five short years has demonstrated its capability to have a significant impact on combat while reshaping thinking about concepts of operations. At this point, it is important to grasp the lessons learned and shed some light on where the plane and the USN-USMC team might well move into the future. The Osprey provides a solid foundation for innovation and the transformation of concepts of operations for the entire USN-USMC team, assuming boldness will overcome timidity.

In this regard, it is important to go back to the founders of the modern U.S. Navy who understood that strategy is built around what is coming, not where one has been. Along that vein, today’s strategy must be built on the capabilities of F-35s and Ospreys, not on F-18s and CH-46s.

As noted in an earlier piece posted on AOL